Abstract: A housing arrangement for a radar sensor includes at least one tubular body and a shielding device for radar beams. The at least one tubular body has a distal end which has a lens mounted therein, and a side wall. The shielding device is arranged on the side wall on an outer side of the at least one tubular body. The at least one tubular body is made of a dielectric plastic. The shielding device is made of a metal.

Abstract: A sensor device for determining a position of seeds while sowing. The sensor device includes a radiation assembly which generates an illumination radiation oriented towards a target area, and a detection assembly. The radiation assembly includes a radiation source which provides an emission spectrum of the illumination radiation covering a spectral range. The detection assembly includes a radiation detector which detects an incident radiation, and a filter member with an attenuation band and a pass band. The radiation detector includes a field of view. The pass band has an attenuation which is less than an attenuation of the attenuation band in a wavelength range where the wavelengths are longer than those of the attenuation band. The target area and the field of view intersect. The radiation source and the radiation detector form a triangulation arrangement so that a distance from the target area to the detection assembly can be determined.

Abstract: A sensor device (100), for measuring a surface (101), includes a lighting device (103) emitting a light beam (105); an optical device (107) splitting the light beam (105) into partial light beams (109, 111), and emitting the first partial light beam (109) toward a first surface area (113) and emitting the second partial light beam (111) toward a second surface area (115). A light sensor (117) is configured to receive a first surface area reflection (109-1) of the first partial light beam (109) and a second surface area reflection (111-1) of the second partial light beam (111). A processor (119) is configured to detect a distance of the first surface area (113) and of the second surface area (115) to the sensor device (100) based on a position of the first partial light beam reflection (109-1) and the second partial light beam reflection (111-1) on the light sensor (117).

Abstract: A sensor array includes a housing with a circumferential housing wall, which defines a housing opening, with a sensor circuit board with a high-frequency sensor. The sensor circuit board in the housing is arranged such that the high-frequency sensor is directed towards the housing opening. A one-piece closing cap closes the housing. The one-piece closing cap has a circumferential cap wall and a high-frequency lens. The high-frequency lens closes the circumferential cap wall on the front side and is directed towards the housing opening. A distance between the high-frequency lens and the high-frequency sensor and thus a focal length is predefined by a lateral length of the cap wall.

Abstract: A housing arrangement for a radar sensor includes at least one tubular body and a shielding device for radar beams. The at least one tubular body has a distal end which has a lens mounted therein, and a side wall. The shielding device is arranged on the side wall on an outer side of the at least one tubular body. The at least one tubular body is made of a dielectric plastic. The shielding device is made of a metal.

Abstract: A sensor array for a potentiometric measurement of a fill level in a container. The sensor array includes an electro-magnetically shielding array whose potential is dependent on a potential of the container, and an oscillator array which generates an AC voltage. The oscillator array is at least partly arranged in the electro-magnetically shielding array.

Abstract: A sensor device for determining a position of seeds while sowing. The sensor device includes a radiation assembly which generates an illumination radiation oriented towards a target area, and a detection assembly. The radiation assembly includes a radiation source which provides an emission spectrum of the illumination radiation covering a spectral range. The detection assembly includes a radiation detector which detects an incident radiation, and a filter member with an attenuation band and a pass band. The radiation detector includes a field of view. The pass band has an attenuation which is less than an attenuation of the attenuation band in a wavelength range where the wavelengths are longer than those of the attenuation band. The target area and the field of view intersect. The radiation source and the radiation detector form a triangulation arrangement so that a distance from the target area to the detection assembly can be determined.

Abstract: A control device for controlling a height of a boom of a vehicle. The control device includes a transmission/receiver set, a processor, a control, and a communication interface. The transmission/receiver set transmits an initial measuring signal and receives an initial reflection signal in response thereto, and transmits a second measuring signal and receives a second reflection signal in response thereto. The processor determines a majority of initial reflection components of the initial reflection signal, a majority of second reflection components of the second reflection signal, and compares the initial reflection components with the second reflection components to determine matching reflection components. The matching reflection components indicate a layer of reflection objects. The communication interface links the processor with the control and to determine a control signal for controlling the boom based on the matching reflection components.

Abstract: A sensor includes at least a housing (3) which encloses a housing interior (6), a printed circuit board (8) and a sensing element (10). The printed circuit board (8) has electronic components (9) and is located within the housing interior (6). The sensing element (10) is electrically connected to the printed circuit board (8) and is located within the housing interior (6). The sensing element (10) is frictionally connected to the housing (3) so that the sensing element (10) is held in position in the housing interior (6).

Abstract: A light section sensor for providing an output of a digital output coordinate has an illuminating device for projecting a light line onto a measured object and an electronic camera for detecting the projected light line on the measured object. A processing device determines at least one measured coordinate in a measured coordinate system on the basis of the light line detected. A coordinate transformation device transforms the measured coordinates from the measured coordinate system into the output coordinates in an output coordinate system by a coordinate transformation. A slope angle determination device determines the slope angle of the light section sensor in relation to a flat surface of the measured object.

Abstract: A sensor includes at least a housing (3) which encloses a housing interior (6), a printed circuit board (8) and a sensing element (10). The printed circuit board (8) has electronic components (9) and is located within the housing interior (6). The sensing element (10) is electrically connected to the printed circuit board (8) and is located within the housing interior (6). The sensing element (10) is frictionally connected to the housing (3) so that the sensing element (10) is held in position in the housing interior (6).

Abstract: The present invention relates to a shaft encoder device, comprising magnetic sensor means designed to detect the magnetic field of a magnetic field generating means stationary with respect to the shaft, a light source, optical sensor means designed to detect light emitted from the light source and reflected or transmitted by an encoder disk stationary with respect to the shaft, and signal processing means designed to receive first data from the magnetic sensor means and second data from the optical sensor means, and to determine an angle of rotation of the shaft from the received first data and/or to determine the angle of rotation of the shaft from the received second data.

Abstract: The acoustic transducer includes one or more membranes which cover cavities on a substrate by means of a uniformly thick polymer layer produced by vapor deposition. In the region of the cavities vapor deposition is performed on the surface of a liquid, which subsequently may be removed from the cavities via channels.

Abstract: An optical sensor having a light source (3) and a structured front plate (11), which expands the focused light beam (9) of the light source (3) at least in one direction. In one advantageous construction, the structure includes an array with several cylindrical lenses (11). They are preferably constructed by hot stamping the surface the front plate (11). The expanded light beam (9) is suitable, in particular, for detecting narrow objects (1) or edges. The light source (3) and the front plate (11) are each aligned relative to the sensor housing (12).

Abstract: An optical sensor (1) with a light beam (7) created by a pulsed primary light source (5), which light beam is reflected at a surface (13) of an object and is recognized by a detector. In order to mask interfering effects, which might develop due to diffused light of the light beam (7), a compensation light source (25) emits a light cone during station breaks in operation of the primary light source (5), which includes the diffused light range of the light beam (7) of the primary light source (5). In this way, objects within the diffused light area create a compensation light portion, which prevents the activation of the sensor output merely by the diffused light of the light beam (7).

Abstract: A proximity sensor (1) including a PCB (10) which contains the sensor electronics, a sensor element and a sensor interface. The electric connections between the PCB (10) and the sensor interface and/or the sensor element are established by plug-in contacts. Preferably, contact elements (21) having bifurcated arms (25) and contact blades (27) are configured on the sensor housing, and the PCB (10) is inserted between the bifurcated arms (25) in such a way that the contact blades (27) establish an electrical connection with contact surfaces (53) on the PCB (10).

Abstract: An optical sensor (1) having a light source (3) and a device for homogenizing the light beam (9) generated by the light source (3) is provided. Several optical elements with different focal distances cause a homogenization of the light beam (9) in its propagation direction. For homogenizing the light beam (9) perpendicular to its propagation direction, several optical elements are used with alternating focal lengths or widths arranged one next to the other. These are preferably constructed as an array on a front plate.

Abstract: An optical sensor having a light source (3) and a structured front plate (11), which expands the focused light beam (9) of the light source (3) at least in one direction. In one advantageous construction, the structure includes an array with several cylindrical lenses (11). They are preferably constructed by hot stamping the surface the front plate (11). The expanded light beam (9) is suitable, in particular, for detecting narrow objects (1) or edges. The light source (3) and the front plate (11) are each aligned relative to the sensor housing (12).

Abstract: An optical sensor (1) with a light beam (7) created by a pulsed primary light source (5), which light beam is reflected at a surface (13) of an object and is recognized by a detector. In order to mask interfering effects, which might develop due to diffused light of the light beam (7), a compensation light source (25) emits a light cone during station breaks in operation of the primary light source (5), which includes the diffused light range of the light beam (7) of the primary light source (5). In this way, objects within the diffused light area create a compensation light portion, which prevents the activation of the sensor output merely by the diffused light of the light beam (7).

Abstract: A manually controlled sensor for authenticity identification of luminescent identification features on documents is described, in which the identification feature is illuminated with an excitation wavelength and may respond at a different wavelength, with the response wavelength being detected and evaluated by a radiation receiver. In order to improve the sensitivity and to comply with the safety at work regulations, a focused beam (31, 32), which is emitted from a beam source (1), is converted by focusing optics (2, 3) in such a manner that a scanning bar (22), which is approximately in the form of a line, is projected on the surface of the object (5) to be investigated, which causes the identification region (21) which is arranged on the object (5) to fluoresce in a luminescent manner in at least one subregion, and the luminescence signal produced in this way is passed via detection optics (9, 9′, 10) to an evaluation unit (11), which evaluates the luminescence signal.